Feasibility Analysis of Surface Rail in the Revitalization of the Railway Road
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MATEC Web of Conferences 215, 01038 (2018) https://doi.org/10.1051/matecconf/201821501038 ICTIS 2018 Feasibility Analysis of Surface Rail in The Revitalization of The Railway Road Wilton Wahab Institut Teknologi Padang, Department of Civil Engineering, Padang, Indonesia Abstract. The railway lines are an integral construction made of steel, concrete or other construction are located on the surface, below and above ground or dangling along with devices that direct the course of the train. Reflecting on the success of the revitalization of the railway line Padang-Pariaman, PT. Railway DIVRE II West Sumatra recently returned to the revitalization of the railway line Lubuk Alung–Kayu Tanam. In this final project feasibility analysis back to the road construction railroad Lubuk Alung-Kayu Tanam considering this path has not been used and an increase in the construction of the railroad on the route. The methodology used is the collection of data from related parties subsequently perform the calculation and analysis of railroad construction that has been revitalized. Data obtained from the calculation of the voltage rails on existing condition of 1380.34 kg/cm2 and the voltage rails after revitalized by 840.601 kg/cm2 while rail voltage maximum allowed is 1325 kg/cm2, the rail existing deserves to be revitalized. Iron bearing on the condition of the existing able to withstand a load of 6761.69 kg, while the load caused by railbus is 8568.986 kg so that the iron bearing existing not worth traversed railbus axle 18 ton and made improvement to the concrete pads. After upgrading, held their concrete pads capable of 23241.678 kg load and expenses incurred as a result of railbus axle 18 tons of concrete pads amounted to 6986.276. Concrete pads so deserve to be passed railbus axle 18 tons. The results of this thesis states that the construction of a rail road Lubuk Alung-Kayu Tanam deserves to be revitalized because of the condition of the existing construction rails and bearings are not able to withstand the stresses and loads that occur due railbus 18 tons passing through. transportation technology system will also be based on 1 Preliminary improving the quality of human life and the goals of fulfilling the needs of globalization. One example of the Transport has now grown into one of the most basic success of Indonesian transportation technology is the human needs. Starting from the smallest scope of human improvement of railway performance to reduce life, medium scope up to the widest scope. A country congestion due to the increase of private vehicles such with different characteristics of its activities, its culture, as monorail and MRT (Mass Rapid Transit) in Jakarta and its physical, is definitely in contact with [2]. transportation. The effects of the need for West Sumatra as one of the developing provinces in movement/movement of people and goods will cause a Indonesia is also currently being incessant to develop demand for the provision of infrastructure and means of railway transportation mode. As we know that the action to create a movement that goes with the condition railway in West Sumatra had experienced suspended of safe, convenient and smooth, and economical in terms animation until in 2007 the Padang-Pariaman railway of time and cost. In the end, the need for transportation line was reactivated. The success of revitalization is not only a natural need just, but it is necessary to have system and technology of transportation mode of a good system so that the objectives of the above railway transportation of Padang -Pariaman line need to movements can be achieved [1]. The current evolving be fully supported by good infrastructure. Not only the transportation system has embodied a form of ministry Padang - Pariaman railway course, beginning in through various means of mechanistic movement that November 2016 and DIVRE II WEST SUMATERA almost extends to all networks of territory on earth. Thus, also reactivated the Lubuk Alung - Sicincin - Kayu today through modern transportation systems it is not Tanam railway line called the Pioneer Train. The difficult to reach the center of human activity from difference is that if the Padang-Pariaman railway line is different angles of movement. The development of still crossed by BB locomotives, the Lubuk Alung-Kayu transportation technology in the future will be directed Tanam line is crossed by a railbus type train with an axle to the ability to overcome the demands of freight load of 18 tons, where the load is larger than the limitations, mileage, the speed of movement, comfort, locomotive that usually crosses this line is 11 tons. In safety, and cost reduction. In addition to the fulfillment the revitalization of the railway that was once vacuumed of transportation limitations above, the dimension of * Corresponding author: [email protected] © The Authors, published by EDP Sciences. This is an open access article distributed under the terms of the Creative Commons Attribution License 4.0 (http://creativecommons.org/licenses/by/4.0/). MATEC Web of Conferences 215, 01038 (2018) https://doi.org/10.1051/matecconf/201821501038 ICTIS 2018 at the beginning of 2000, DIVRE II SUMATERA Y = Distance of bottom edge of rail to neutral line BARAT has been rebuilding or repairing infrastructure The value of the voltage that occurs on the rail shall not in the form of emplacement, road equipment, security exceed the rail permit voltage according to JNR in and telecommunication, lighting, water supply and Regulation No. 10, 1986 presented in the following table others that support the smooth revitalization of railway 1: Lubuk Alung - Kayu Tanam [3-7]. Table 1. Regulation No. 10, 1986 2 Study of Literature Permit Voltage Voltage (kg/cm2) Class Rail According to Ministerial Regulation No. 60 of 2012 on (kg/cm2) According to the technical requirements of the railway line, the speed JNR is divided into speed of plan, maximum speed, operation R 60 1042 I 1325 speed and commercial speed. R 54 1195 Axle pressure is the load received by the rail of an R 54 1146 axle. For all classes, the maximum axle load is 18 tones. II 1325 R 50 1236 To calculate the maximum axle pressure, it can use the formula. R 54 1097 III R 50 1183 1663 0,4 G P x R 42 1474 1 C a .....................................................(1) R 54 1048 To be able to determine the strength of a rail in holding IV R 50 1130 1843 the load through it can be confused using some of the R 42 1409 following formulas: a. Load Calculation on Boogie (Pb) V R 42 1343 1843 W locomotive Pb = … … … … … … … … … . (2) Steps to calculate the imposition according to 2 Regulation No. 10 of 1986 are as follows: b. Load Charge a. Calculation of Train Charge Distribution to Bearing (Q) Heavy Style On Boogie Pg = … … … … … … (3) 2 Where: c. Static Load Calculation (Ps) Ps = Style On Gandar … … … … … … … … … … (4) 2 d. Dynamic Load Calculation (Pd) V Pd = Ps ( 1 + 0,01 ( maks ) − 5) … … … … … … (5) 1,609 b. Calculation of Bearing Reduction Factor (Dumping Factor, λ pads) e. Calculation of Reduction Factor / Damping (damping Factor, λ) 4 K λ = √ … … … … … … … … … … … … … … (6) 4EIx c. Calculation of Moments at Points C and D (Right at Where: the Bottom of the Rails) K = Modulus of Elasticity of Rail Road E = Modulus of Elasticity of Steel Constructor of Railway Ix = Moment of Inertia Rail f. Maximum Moment Calculation (Mm) Pd 푀 = … … … … … … … … … … … … … . … (7) 푚 4λ Where: d. Calculation of Moment in Middle Bearing Pd = Dynamic Load λ = Rail Reduction Factor g. Voltage Calculation Happened (δ) e. Calculation of the moment that can hold the bearing Where: 퐴푠푠푢푚푝푡푖표푛 푀푠 = 푀푏푒푎푟푖푛푔 M1 = The moment due to the superposition of some 푀 = (5 휏 ) 푥 푊……………………..(15) axles (0.85 x Mm) 푏푒푎푟푖푛푔 6 1 2 MATEC Web of Conferences 215, 01038 (2018) https://doi.org/10.1051/matecconf/201821501038 ICTIS 2018 Where: the railbus and must be replaced with larger rail 휏 = Bearing permit voltage by type Bearing Load dimensions. Calculation (Q1) The load distribution occurring on the pads due to a 푀퐵푒푎푟푖푛푔 railbus axle pressure of 18 tones is 8568,898 kg, and 푄1 = ……………………………...(16) 푀푐/푑 greater than the load capacity of being retained by iron f. Bearing Analysis bearings 6761,39 kg, therefore the iron bearings are not The bearing load analysis shall qualify that the load feasible to pass by a railbus rail type 18 train ton. capacity of being retained by the binate shall be higher Increasing the dimension of rail type R33 to rail type than the load incurred. R54 produce rail voltage of 840,601 kg / cm2. The (Q1>Q) ......................................................... (17) resulting voltage which is smaller than the maximum voltage permitted by JNR in Regulation No. 10 of 1986 amounted to 1325 kg / cm2. Then the R54 type rail is 4 Discussion safely traversed by a railbus railway type of 18 tons. The preparation stage is the stage of activity before Substitution of the type of iron-bearing into concrete beginning data collection and processing. To analyze the pads produces a bearable load of bearings of 23,241,678 construction of the railway road Lubuk Alung - Wood kg, and this is greater than the distributed load that Planting required data related to the objectives to draw occurs on the bearing that is 6986,277 kg. Thus the the right conclusions, therefore conducted data concrete bearing is able to withstand the burden of inventory through agency surveys, interviews with railbus with axle 18 tons. related parties whose policies have influence and Physically, the existing condition of Lubuk Alung - relationship to the perfection of construction. At this Kayu Tanam railway line that was built during the Dutch stage, the data processing for the calculation of the colonial period was designed to be traversed by the construction of railbus 18 tons and the maximum speed locomotive of BB type with 11 tons.